The composition of the Belly River, Bluff, Bremervoerde, and Modoc meteorites.
Chemical and mineralogical composition and structure of Belly River, Bluff, Bremer Voerde and Modoc meteorites
CHEMICAL ANALYSIS↗
SEARCH · Engineering Papers
Results for “rivers”
Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
Quote a phrase for an exact phrase match. Source license links do not imply unrestricted reuse.
Isoprenoid and dicarboxylic acids isolated from Colorado Green River shale /eocene/.
Isoprenoid and dicarboxylic acids isolated from Colorado Green River shale /eocene/ organic extract, discussing structural identification by mass spectrometry
Burlingame, A. L.↗
Keto-carboxylic acids isolated from the Colorado Green River shale
Long chain saturated terminal methylketocarboxylic acids isolated from Colorado Green River eocene sediment oil shale
Burlingame, A. L.↗
Aromatic carboxylic acids isolated from the Colorado Green River formation
Aromatic carboxylic acids isolation from Colorado River Eocene formation shale, discussing gas- liquid chromatography and mass spectrometry
Burlingame, A. L.↗
Analysis of the mineral entrapped fatty acids isolated from the Green River Formation.
Minerally entrapped fatty acids analyzed after demineralization liberation of exhaustively extracted oil shale from Green River Formation
Burlingame, A. L.↗
Lunar rivers.
Lunar sinuous rills origin, suggesting surface erosion by water rivers released from permafrost ice cover during meteoritic impact
Lingenfelter, R. E.↗
High resolution mass spectrometry of Green River Formation kerogen oxidations.
Normal, isoprenoid, dicarboxylic, keto and various aromatic acids isolated from controlled stepwise degradation of Green River kerogen by successive chromic acid oxidations
Burlingame, A. L.↗
Lunar rivers or coalesced chain craters?
Lunar rivers as coalesced chain craters resulting from gas emission along fracture beneath lunar regolith
Schumm, S. A.↗
Acidic components of Green River shale identified by a gas chromatography-mass spectrometry-computer system.
Acid fraction extraction of Green River shale identified by gas chromatography-mass spectrometry-computer system, noting trimethyl pentadecanoic acid
Biemann, K.↗
Infrared imagery of part of the High Cascade Range and McKenzie River Valley, Oregon
Geologic interpretation of aerial infrared photographs of High Cascade Range and McKenzie River Valley, Oregon
Swanson, D. A.↗
Nitrogenous compounds of the Colorado Green River Formation oil shale - A preliminary analysis by mass spectrometry
Nitrogenous compounds from Colorado Green River Formation oil shale using high resolution mass spectrometry
Burlingame, A. L.↗
An airborne measurement of the salinity variations of the Mississippi River outflow
Microwave radiometric airborne measurement of salinity of Mississippi River outflow, using P3A aircraft
Droppleman, J. D.↗
A thermal survey of the Connecticut River estuary
Thermal mapping of heated nuclear power plant discharge into river
Ruggles, F. H., Jr.↗
Observations of the inland delta of the Niger River by Nimbus 3 High-Resolution Infrared Radiometer /HRIR/
Nimbus 3 high resolution infrared radiometer photographs of inland delta of Niger River demonstrating use in earth resources studies
Mac Leod, N. H.↗
The Anacostia River, ecological imbalance of an urban stream valley
Poor land use and hydrologic practices and physical and chemical pollution of Anacostia river valley
Lahn, R. M.↗
Evaluation of chromatographic techniques for the preparative separation of steranes and triterpanes from Green River formation oil shale
Gas-liquid chromatographic milligram preparative separation of steranes and triterpanes from hydrocarbon fraction of Green River oil shale
Burlingame, A. L.↗
Note on the occurrence of driblet spires in the Snake River Plain, Idaho
Driblet spires in Snake River Plain, Idaho, discussing basalt lava features and remnants in lunar areas
Greeley, R.↗
The role of remotely sensed and relayed data in the Delaware River Basin
A discussion is presented of the planned integration of the existing Delaware River Basin water quality monitoring and data processing systems with a data relay experiment proposed for the Earth Resources Technology Satellite (ERTS)-A, which will be launched in 1972. The experiment is designed to use ERTS-A as a data relay link for a maximum of 20 hydrologic stations in the basin, including streamgaging, reservoir level, ground water level,and water quality monitoring stations. This experiment has the potential for reducing the timelag between data collection and dissemination to less than 12 hours. At present there is a significant timelag between the time when the data are recorded at a monitoring site and the water resources agencies receive the data. The timelag exists because most of these instruments operate in remote locations without telementry, and the data records are removed manually, generally at a weekly frequency. For most water quality monitoring, the data do not reach water resources agencies for a period of 2 weeks to 2 months.
Paulson, R. W.↗